Osteoporosis(OP)is a systemic bone disease.In recent years,the researches both at home and abroad find that the oxidative stress(OS)phenomenon driven by the abnormal accumulation of reactive oxygen species(ROS)and pro-inflammatory mediators not only accelerates the differentiation and activation of osteoclasts,but also inhibits the formation of osteoblasts.At the same time,a family of fork-head box pro-teins O(FoxOs)that can regulate OS is found to play a key role in bone homeostasis.Activated FoxOs family can up-regulate the expressions of a series of target genes and play an anti-osteoporosis role,but in certain spe-cial circumstances,the activation of the FoxOs family can also lead to degenerative OP.With great progress in the study of isopsoralen(ISO),ISO is found to have antioxidant effect,which can remove excessive ROS and alleviate the damage of OS on bone cells.At the same time,ISO can enhance the FoxOs family activity by reg-ulating FoxOs family phosphorylation and acetylation levels,thus promote bone formation.This article re-views the action mechanisms of ISO in regulating OS,ROS and FoxOs family,as well as relevant therapeutic strategies targeting the PPAR-γ/Wnt signaling pathway in order to provide references for the prevention and treatment of OP,and improve the living quality of the patients.

Enhanced recovery after surgery has reduced the number and duration of medical catheter placements through perioperative optimization measures. However, in clinical practice, catheters are still inevitably heavily used, and the risk of catheter-related infections persists. Preventing bacterial adhesion and biofilm formation on catheter surfaces is crucial. Medical antibacterial-coated catheters introduce substances that prevent fouling and adhesion, inhibit or kill bacteria on the surface, forming an antibacterial functional surface, providing a new strategy to address catheter-related infections. This article summarizes the current research status of medical antibacterial-coated catheters, introduces the antibacterial strategies and principles of the coatings, describes their actual effects in clinical applications, and analyzes future research directions. These studies help reduce catheter-related infections, promote innovation in clinical nursing technology, and improve the quality and efficiency of nursing care.

Enhanced recovery after surgery has reduced the number and duration of medical catheter placements through perioperative optimization measures. However, in clinical practice, catheters are still inevitably heavily used, and the risk of catheter-related infections persists. Preventing bacterial adhesion and biofilm formation on catheter surfaces is crucial. Medical antibacterial-coated catheters introduce substances that prevent fouling and adhesion, inhibit or kill bacteria on the surface, forming an antibacterial functional surface, providing a new strategy to address catheter-related infections. This article summarizes the current research status of medical antibacterial-coated catheters, introduces the antibacterial strategies and principles of the coatings, describes their actual effects in clinical applications, and analyzes future research directions. These studies help reduce catheter-related infections, promote innovation in clinical nursing technology, and improve the quality and efficiency of nursing care.